Pipeline Local Pressure

Calculate pipeline local stationary pressure from elevation.

The internal fluid density is assumed constant. Use the Result Plot option to plot pressure versus elevation.

Change Module :

Lame's Equation Compound Cylinder Or Pipe Calculation Module
Lame's Equation Thick Wall Pipe Stress Calculation Module
Pipeline Allowable Stress Calculation Module
Pipeline Axial Load Calculation Module
Pipeline Collapse Pressure Calculation Module
Pipeline Combined Stress Check Calculation Module
Pipeline Expansion Spool Calculation Module
Pipeline Fluid Velocity And Flowrate Calculation Module
Pipeline Fluid Volume And Mass Calculation Module
Pipeline Hoop Stress Calculation Module
Pipeline Maximum Allowable Design Pressure Calculation Module
Pipeline Natural Vibration Frequency Calculation Module
Pipeline Test Pressure Calculation Module
Pipeline Wall Thickness Calculation Module
Pipeline Yield Stress And Tensile Stress Calculation Module
All
More Pipeline Pressure Modules

[FREE] tools are free in basic mode with no login (no plots, tables, goal seek etc). Login or Open a free account to use the tools in plus mode (with plots, tables, goal seek etc).
[PLUS] tools are free in basic CHECK mode with Login or Open a free account (CHECK values no plots, tables, goal seek etc). Buy a Subscription to use the tools in plus mode (with plots, tables, goal seek etc).
Try plus mode using the Plus Mode Demo tools with no login. Help Using The Pipeng Toolbox (opens in the popup workbook)

Links : ±

CALCULATOR : Pipeline Local Pressure From Elevation (Offshore Pipeline) [FREE] ±

Calculate offshore pipeline local stationary internal pressure and external pressure from elevation using Bernoulli's equation.

The local internal pressure is calculated from the reference pressure and relative elevation. The external pressure is calculated from the water depth. The internal fluid density is assumed constant.

Tool Input

pletype : External Pressure Type
- Pleu : User Defined Local External Pressure
plitype : Internal Pressure Type
- Priu : User Defined Reference Internal Pressure
- Pliu : User Defined Local Internal Pressure
ρf : Internal Fluid Density
ρe : External Fluid Density
Zr : Reference Elevation Relative To Datum
Zl : Local Elevation Relative To Datum
Zs : Surface Elevation Relative To Datum

Tool Output

ΔPl : Pressure Difference Across Pipe Wall
Δz : Local Elevation Relative To Reference Elevation
Ple : External Pressure
Pli : Internal Pressure At Local Elevation
Pri : Internal Pressure At Reference Elevation
wd : Water Depth

CALCULATOR : Pipeline Local Pressure From Elevation (Onshore Pipeline) [FREE] ±

Calculate onshore pipeline local stationary internal pressure from elevation using Bernoulli's equation.

The local internal pressure is calculated from the reference pressure and relative elevation. The internal fluid density is assumed constant.

Tool Input

plitype : Internal Pressure Type
- Priu : User Defined Reference Internal Pressure
- Pliu : User Defined Local Internal Pressure
ρf : Internal Fluid Density
Zr : Reference Elevation Relative To Datum
Zl : Local Elevation Relative To Datum

Tool Output

Δz : Local Elevation Relative To Reference Elevation
Pli : Internal Pressure At Local Elevation
Pri : Internal Pressure At Reference Elevation

CALCULATOR : Pipeline Two Phase Gas Liquid Density [FREE] ±

Calculate pipeline fluid density for single phase fluid (oil or water), single phase gas, and two phase gas liquid.

Gas oil ratio (GOR) is the ratio of gas moles over oil volume. Gas moles are commonly measured as gas volume at standard conditions (eg SCF or SCM).

Tool Input

mvtype : Fluid Density Type
- GORu : User Defined Gas Oil Ratio
- Xmu : User Defined Gas Mass Fraction
- Xvu : User Defined Gas Volume Fraction
- ρu : User Defined Fluid Density
ρl : Liquid Density
P : Fluid Pressure
T : Fluid Temperature
Z : Gas Compressibility Factor
SG : Gas Specific Gravity

Tool Output

ρf : Average Fluid Density
ρg : Gas Density (At T P)
GOR : Gas Oil Ratio
Xm : Gas Mass Fraction
Xv : Gas Volume Fraction (At T P)
vg : Gas Mole Volume (At T P)

CALCULATOR : Pipeline Three Phase Black Oil Density [FREE] ±

Calculate pipeline fluid density for two phase (oil and water) liquid, single phase gas, or three phase black oil (oil, water and gas).

Water cut is measured relative to the total liquid volume (gas volume is ignored). Gas oil ratio (GOR) is measured relative to the oil volume at standard conditions (water volume is ignored).

Tool Input

mvtype : Fluid Density Type
- GORu : User Defined Gas Oil Ratio
- WCu : User Defined Water Cut
- ρu : User Defined Fluid Density
ρo : Oil Density
ρw : Water Density
P : Fluid Pressure
T : Fluid Temperature
Z : Gas Compressibility Factor
SG : Gas Specific Gravity

Tool Output

ρf : Average Fluid Density
ρg : Gas Density
ρl : Liquid Density
GOR : Gas Oil Ratio
WC : Water Cut
Xmg : Gas Mass Fraction
Xml : Liquid Mass Fraction
Xmo : Oil Mass Fraction
Xmw : Water Mass Fraction
Xvg : Gas Volume Fraction
Xvl : Liquid Volume Fraction
Xvo : Oil Volume Fraction
Xvw : Water Volume Fraction
vg : Gas Mole Volume (At T P)

CALCULATOR : Pipeline Gas Density And Compressibility Factor [FREE] ±

Calculate pipeline gas compressibility factor and density from gas temperature and pressure for selected gases.

The gas compressibility factor is calculated from the critical point temperature, critical point temperature, and the accentric factor using either the Peng Robinson, Soave, Redlich Kwong or Van Der Waals equations of state (EOS). The compressibility factor calculation is valid for gas phase only. Use the Result Plot option to plot compressibility factor versus pressure and temperature, compressibility factor versus pressure and equation of state type, or compressibility factor versus temperature and equation of state type.

Tool Input

fluidtype : Fluid Type
- SGu : User Defined Gas Specific Gravity
- ωu : User Defined Acentric Factor
- Pcu : User Defined Critical Pressure
- Tcu : User Defined Critical Temperature
eostype : Equation Of State
- Zu : User Defined Compressibility Factor
P : Fluid Pressure
T : Fluid Temperature

Tool Output

ρ : Fluid Density
ω : Accentric Factor
Pc : Critical Point Pressure
Pr : Reduced Pressure
SG : Gas Specific Gravity Relative To Air
Tc : Critical Point Temperature
Tr : Reduced Temperature
Vm : Molar Volume
Z : Compressibility Factor
cvg : Convergence Check
mw : Fluid Molar Mass